Abstract: A vertical garden having an assemblage of parts that facilitates packaging and transportation in a disassembled state and/or one or more features that provide an enhanced leakproof design. The assemblage includes a base and planter modules that are stackable atop the base to form a vertical column of stacked modules for growing plants when in a fully-assembled state. The planter modules may be nestable within each other to form a compact bundle of nested modules that is smaller in size than the vertical column of stacked modules when in a disassembled state, thereby providing a kit that facilitates compact packaging of the vertical garden. An intermediate portion of the garden may have a divider that separates a drain path from the fill port of the device, thereby restricting leakage. A catch basin may be provided for capturing debris. A modular grow lighting system also may be provided.

Abstract: A latch to secure an access panel at an enclosure may include a shuttle component including a latch pin. The latch pin is configured to engage with a corresponding receptacle at the enclosure. A spring retracts the latch pin to within the access panel when the access panel is not positioned for installation at the enclosure, and permits the latch pin to protrude from the access panel to mate with the receptacle in response to magnetic attraction by a magnet positioned within the receptacle when the access panel is positioned for installation at the enclosure. The magnetic attraction of the magnet to the latch pin overcomes the force of the spring to retract the latch pin.

Abstract: A lighting system for a vertical garden includes at least one light ring including a central hub member configured to be removably mounted to the vertical garden, an outer ring member, and a plurality of spoke members extending radially between the central hub member and the outer ring member, a plurality of light sources supported in the outer ring member, and a drive circuit for the plurality of light sources, a power supply, and at least one power connector connected between the drive circuit and the power supply.

Abstract: A bezel configured to mechanically couple to a housing for housing components of an information handling system may include one or more mechanical features for mechanically coupling the bezel to the housing, an illuminated element module mechanically coupled to a mechanical structure of the bezel, and a bezel connector having a plurality of pins communicatively coupled to the illuminated element module, the bezel connector configured to communicatively couple the illuminated element module to an access controller of the information handling system housed within the housing, such that the illuminated element module receives instructions from the access controller for displaying a visual behavior relating to a status of the information handling system and displays the visual behavior in response to receiving the instructions.

Abstract: A lighting system for a vertical garden includes at least one light ring including a central hub member configured to be removably mounted to the vertical garden, an outer ring member, and a plurality of spoke members extending radially between the central hub member and the outer ring member, a plurality of light sources supported in the outer ring member, and a drive circuit for the plurality of light sources, a power supply, and at least one power connector connected between the drive circuit and the power supply.

Abstract: A lighting system for a vertical garden includes at least one light ring including a central hub member configured to be removably mounted to the vertical garden, an outer ring member, and a plurality of spoke members extending radially between the central hub member and the outer ring member, a plurality of light sources supported in the outer ring member, and a drive circuit for the plurality of light sources, a power supply, and at least one power connector connected between the drive circuit and the power supply.

Abstract: A latch to secure an access panel at an enclosure may include a shuttle component including a latch pin. The latch pin is configured to engage with a corresponding receptacle at the enclosure. A spring retracts the latch pin to within the access panel when the access panel is not positioned for installation at the enclosure, and permits the latch pin to protrude from the access panel to mate with the receptacle in response to magnetic attraction by a magnet positioned within the receptacle when the access panel is positioned for installation at the enclosure. The magnetic attraction of the magnet to the latch pin overcomes the force of the spring to retract the latch pin.

Abstract: The present disclosure relates to a tool including one or more shock absorption components disposed in the tool and adapted to protect various components of the tool in the event the tool is dropped or otherwise sustains an impact force. In an embodiment, the tool includes shock absorption foam disposed above and below an electronic display. The tool may also include a shock absorption component disposed under an end cap of the tool to absorb a shock or impact force to the tool when the tool is dropped on the end cap.

Abstract: A multi device system includes a rack with a rack slot. A device chassis is positioned in the rack slot. The device chassis includes first device slot with a first device entrance, and a second device slot with a second device entrance. A first device stop member extends from the device chassis and into the first device slot. The distance between the first device stop member and the first device entrance is adjustable, and the first device stop member is configured to move a first device in the first device slot through the first device entrance. A second device stop member extends from the device chassis and into the second device slot. The distance between the second device stop member and the second device entrance is adjustable, and the second device stop member is configured to move a second device in the second device slot through the second device entrance.

Abstract: The present disclosure relates to a tool including one or more shock absorption components disposed in the tool and adapted to protect various components of the tool in the event the tool is dropped or otherwise sustains an impact force. In an embodiment, the tool includes shock absorption foam disposed above and below an electronic display. The tool may also include a shock absorption component disposed under an end cap of the tool to absorb a shock or impact force to the tool when the tool is dropped on the end cap.

Abstract: The present disclosure relates to a tool including one or more shock absorption components disposed in the tool and adapted to protect various components of the tool in the event the tool is dropped or otherwise sustains an impact force. In an embodiment, the tool includes shock absorption foam disposed above and below an electronic display. The tool may also include a shock absorption component disposed under an end cap of the tool to absorb a shock or impact force to the tool when the tool is dropped on the end cap.

Abstract: Systems and methods that may be implemented to secure a bezel over a face of an information handling system chassis by using magnetic force to draw in and retain a ferromagnetic bezel latch pin in a latching position relative to complementary latch structure of the chassis. The disclosed systems and methods may be implemented in a manner that minimizes functional intrusions on the front (or other side) of a chassis enclosure to which a bezel is secured, that reduces the number and/or complexity of mechanical features that are conventionally employed, and/or that presents both an intuitive and pleasant user experience for the end user.

Abstract: A rack system includes a rack base defining a plurality of device slots. A rack wall on the rack base defines a rack volume adjacent a first device slot. A rack volume device coupling system is located in the rack volume and includes a rack volume base positioned in the rack volume. A rack tray is moveably coupled to the rack volume base and configured to move from a first orientation where the rack tray is located in the rack tray housing, to a second orientation where the rack tray extends from the rack volume and into the first device slot. A device is then moved through the first device slot and into the rack tray when the rack tray is in the second orientation. The rack tray is then moved from the second orientation and into the first orientation such that the device is located in the rack volume.

Abstract: Systems and methods that may be implemented to secure a bezel over a face of an information handling system chassis by using magnetic force to draw in and retain a ferromagnetic bezel latch pin in a latching position relative to complementary latch structure of the chassis. The disclosed systems and methods may be implemented in a manner that minimizes functional intrusions on the front (or other side) of a chassis enclosure to which a bezel is secured, that reduces the number and/or complexity of mechanical features that are conventionally employed, and/or that presents both an intuitive and pleasant user experience for the end user.

Abstract: A multi device system includes a rack with a rack slot. A device chassis is positioned in the rack slot. The device chassis includes first device slot with a first device entrance, and a second device slot with a second device entrance. A first device stop member extends from the device chassis and into the first device slot. The distance between the first device stop member and the first device entrance is adjustable, and the first device stop member is configured to move a first device in the first device slot through the first device entrance. A second device stop member extends from the device chassis and into the second device slot. The distance between the second device stop member and the second device entrance is adjustable, and the second device stop member is configured to move a second device in the second device slot through the second device entrance.

Abstract: A multi device system includes a rack with a rack slot. A device chassis is positioned in the rack slot. The device chassis includes first device slot with a first device entrance, and a second device slot with a second device entrance. A first device stop member extends from the device chassis and into the first device slot. The distance between the first device stop member and the first device entrance is adjustable, and the first device stop member is configured to move a first device in the first device slot through the first device entrance. A second device stop member extends from the device chassis and into the second device slot. The distance between the second device stop member and the second device entrance is adjustable, and the second device stop member is configured to move a second device in the second device slot through the second device entrance.

Abstract: Systems and methods that may be implemented to secure a bezel over a face of an information handling system chassis by using magnetic force to draw in and retain a ferromagnetic bezel latch pin in a latching position relative to complementary latch structure of the chassis. The disclosed systems and methods may be implemented in a manner that minimizes functional intrusions on the front (or other side) of a chassis enclosure to which a bezel is secured, that reduces the number and/or complexity of mechanical features that are conventionally employed, and/or that presents both an intuitive and pleasant user experience for the end user.

Abstract: A rack system includes a rack base defining a plurality of device slots. A rack wall on the rack base defines a rack volume adjacent a first device slot. A rack volume device coupling system is located in the rack volume and includes a rack volume base positioned in the rack volume. A rack tray is moveably coupled to the rack volume base and configured to move from a first orientation where the rack tray is located in the rack tray housing, to a second orientation where the rack tray extends from the rack volume and into the first device slot. A device is then moved through the first device slot and into the rack tray when the rack tray is in the second orientation. The rack tray is then moved from the second orientation and into the first orientation such that the device is located in the rack volume.

Abstract: A multi device system includes a rack with a rack slot. A device chassis is positioned in the rack slot. The device chassis includes first device slot with a first device entrance, and a second device slot with a second device entrance. A first device stop member extends from the device chassis and into the first device slot. The distance between the first device stop member and the first device entrance is adjustable, and the first device stop member is configured to move a first device in the first device slot through the first device entrance. A second device stop member extends from the device chassis and into the second device slot. The distance between the second device stop member and the second device entrance is adjustable, and the second device stop member is configured to move a second device in the second device slot through the second device entrance.

Abstract: A portable roller press that includes a base frame having a pair of opposing stanchions, a drive roller assembly having upper and lower rollers extending between and rotatably mounted to the stanchions, a pair of opposing wings that are hingedly coupled to the base frame and selectively movable between open and closed positions, and an idler roller rotatably mounted to each of the wings. The wings have recessed portions that together substantially enclose the drive roller assembly when the wings are in closed positions. Additionally, when the wings are in their closed positions, the idler rollers are contained in a void space between the upper and lower rollers. The wings can be substantially hollow and arc configured for holding and transporting items therein.